CN105308947A - Dual aperture zoom digital camera - Google Patents

Dual aperture zoom digital camera Download PDF

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Publication number
CN105308947A
CN105308947A CN201480033014.1A CN201480033014A CN105308947A CN 105308947 A CN105308947 A CN 105308947A CN 201480033014 A CN201480033014 A CN 201480033014A CN 105308947 A CN105308947 A CN 105308947A
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China
Prior art keywords
wide
focal length
angle
video
image
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Granted
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CN201480033014.1A
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CN105308947B (en
Inventor
G·沙布岱
E·戈登堡
O·基古申斯基
N·科恩
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Core Photoelectric Co Ltd
Corephotonics Ltd
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Core Photoelectric Co Ltd
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Priority to CN201810941051.2A priority Critical patent/CN109040552B/en
Priority to CN201810942216.8A priority patent/CN109040553B/en
Priority to CN201810108490.5A priority patent/CN108234851B/en
Priority to CN201810942972.0A priority patent/CN109194849B/en
Priority to CN201810940841.9A priority patent/CN108769497B/en
Application filed by Core Photoelectric Co Ltd filed Critical Core Photoelectric Co Ltd
Priority to CN201810941962.5A priority patent/CN108989647B/en
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    • G—PHYSICS
    • G02—OPTICS
    • G02B—OPTICAL ELEMENTS, SYSTEMS OR APPARATUS
    • G02B13/00—Optical objectives specially designed for the purposes specified below
    • G02B13/001—Miniaturised objectives for electronic devices, e.g. portable telephones, webcams, PDAs, small digital cameras
    • G02B13/0015—Miniaturised objectives for electronic devices, e.g. portable telephones, webcams, PDAs, small digital cameras characterised by the lens design
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N23/00—Cameras or camera modules comprising electronic image sensors; Control thereof
    • H04N23/60—Control of cameras or camera modules
    • H04N23/69—Control of means for changing angle of the field of view, e.g. optical zoom objectives or electronic zooming
    • G—PHYSICS
    • G02—OPTICS
    • G02B—OPTICAL ELEMENTS, SYSTEMS OR APPARATUS
    • G02B13/00—Optical objectives specially designed for the purposes specified below
    • G02B13/001—Miniaturised objectives for electronic devices, e.g. portable telephones, webcams, PDAs, small digital cameras
    • G02B13/009—Miniaturised objectives for electronic devices, e.g. portable telephones, webcams, PDAs, small digital cameras having zoom function
    • G—PHYSICS
    • G02—OPTICS
    • G02B—OPTICAL ELEMENTS, SYSTEMS OR APPARATUS
    • G02B27/00—Optical systems or apparatus not provided for by any of the groups G02B1/00 - G02B26/00, G02B30/00
    • G02B27/0075—Optical systems or apparatus not provided for by any of the groups G02B1/00 - G02B26/00, G02B30/00 with means for altering, e.g. increasing, the depth of field or depth of focus
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N23/00—Cameras or camera modules comprising electronic image sensors; Control thereof
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N23/00—Cameras or camera modules comprising electronic image sensors; Control thereof
    • H04N23/45—Cameras or camera modules comprising electronic image sensors; Control thereof for generating image signals from two or more image sensors being of different type or operating in different modes, e.g. with a CMOS sensor for moving images in combination with a charge-coupled device [CCD] for still images
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N23/00—Cameras or camera modules comprising electronic image sensors; Control thereof
    • H04N23/58—Means for changing the camera field of view without moving the camera body, e.g. nutating or panning of optics or image sensors
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N23/00—Cameras or camera modules comprising electronic image sensors; Control thereof
    • H04N23/60—Control of cameras or camera modules
    • H04N23/667—Camera operation mode switching, e.g. between still and video, sport and normal or high- and low-resolution modes
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N23/00—Cameras or camera modules comprising electronic image sensors; Control thereof
    • H04N23/60—Control of cameras or camera modules
    • H04N23/67—Focus control based on electronic image sensor signals
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N23/00—Cameras or camera modules comprising electronic image sensors; Control thereof
    • H04N23/95—Computational photography systems, e.g. light-field imaging systems
    • H04N23/951—Computational photography systems, e.g. light-field imaging systems by using two or more images to influence resolution, frame rate or aspect ratio
    • H—ELECTRICITY
    • H04—ELECTRIC COMMUNICATION TECHNIQUE
    • H04N—PICTORIAL COMMUNICATION, e.g. TELEVISION
    • H04N23/00—Cameras or camera modules comprising electronic image sensors; Control thereof
    • H04N23/95—Computational photography systems, e.g. light-field imaging systems
    • H04N23/958—Computational photography systems, e.g. light-field imaging systems for extended depth of field imaging

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  • Engineering & Computer Science (AREA)
  • Multimedia (AREA)
  • Signal Processing (AREA)
  • Physics & Mathematics (AREA)
  • General Physics & Mathematics (AREA)
  • Optics & Photonics (AREA)
  • Computing Systems (AREA)
  • Theoretical Computer Science (AREA)
  • Human Computer Interaction (AREA)
  • Studio Devices (AREA)
  • Cameras In General (AREA)

Abstract

A dual-aperture zoom digital camera operable in both still and video modes. The camera includes Wide and Tele imaging sections with respective lens/sensor combinations and image signal processors and a camera controller operatively coupled to the Wide and Tele imaging sections. The Wide and Tele imaging sections provide respective image data. The controller is configured to combine in still mode at least some of the Wide and Tele image data to provide a fused output image from a particular point of view.

Description

Based on Dual-Aperture zoom digital camera
The cross reference of related application
The U.S. Provisional Patent Application with same title numbers 61/834,486 that the application relates on June 13rd, 2013 and submits to and require its priority, this application is incorporated in this in full with for referencial use.
Technical field
Embodiment disclosed herein relates generally to digital camera, and in particular to having rest image and video capability all the two slim zoom digital cameras.
Background technology
Digital camera module is current to be just integrated in multiple host's equipment.Such host's equipment comprises cell phone, personal digital assistant (PDA), computer etc.For the consumer demand of the digital camera module in host's equipment just in sustainable growth.
Host equipment manufacturers wish that the size of digital camera module is less, thus can be merged into wherein by digital camera module when not increasing the overall dimension of host's equipment.In addition, there is the demand of more high performance nature also in continuous increase for such video camera.This class feature that many more high-performance video cameras (such as free-standing Digital Still video camera) have is that the focal length of change video camera is so that the ability of the magnification ratio of increase and reduction image.This ability normally utilizes zoom lens to realize, and is referred to as optical zoom." zoom (zoom) " is understood as that the ability providing the different magnification ratios of same scene and/or object by changing the focal length of optical system usually, wherein higher level of zoom is associated with higher magnification ratio, and lower level of zoom is associated with lower magnification ratio.Optical zoom normally realizes by relative to each other mechanically being moved by lens element.Compared with universal focus lens, such zoom lens are usual costly, larger and reliability is lower.Method for a kind of replacement of approximate Zoom effect utilizes so-called digital zoom and realizes.For digital zoom, replacement changes the focal length of lens, and the processor in video camera carries out cutting to image and carry out interpolation between the pixel of caught image, thus produces the image that still resolution is lower through amplifying.
The trial using multiple aperture imaging system to carry out the effect of approximate zoom lens is known.Multiple aperture imaging system (it is such as embodied in digital camera) comprises multiple optical subsystem (it is also referred to as " sub-video camera ").Each sub-video camera comprises one or more lens and/or other optical elements, it defines aperture thus makes received electromagnetic radiation by described optical subsystem imaging, and by obtained image orientation two dimension (2D) pixelation imageing sensor section.Imageing sensor (or referred to as " transducer ") section is configured to receive image, and based on described Computer image genration sets of image data.Digital camera can be aligned to receive the electromagnetic radiation be associated with the scene with the given set comprising one or more object.Described sets of image data can be expressed as DID, just as is well known in the art.In description below, " image ", " view data " and " DID " can be used interchangeably.In addition, " object " and " scene " can be used interchangeably.
The method such as describing multiple aperture imaging system and be associated in U.S. Patent Publication No. 2008/0030592,2010/0277619 and 2011/0064327.In US2008/0030592, two transducers are simultaneously operated to catch the image of the lens imaging by being associated.Transducer and the lens forming lens/sensor combinations be associated thereof.Described two lens have different focal lengths.Therefore, although each lens/sensor combinations is aligned to towards identical direction, it catches the image of same body respectively with two different visual fields (FOV).A transducer is commonly referred to as " wide-angle (Wide) ", and another is referred to as " focal length (Tele) ".Each transducer provides independent image, and it is referred to as respectively " wide-angle " (or " W ") and " focal length " (or " T ") image.Compared with T image, W image reflects wider FOV and has lower resolution.Described image is sewn (fusion) together subsequently, thus forms compound (" fusion ") image.In the multiplexed image, the relatively more high-definition picture that core is obtained by the lens/sensor combinations by having more long-focus is formed, and periphery is formed by the periphery by having the relatively low image in different resolution obtained compared with short focus lens/sensor combinations.User selects desired zoom quantity, and uses combination picture to carry out interpolation to the numerical value from selected zoom quantity, to provide corresponding zoom image.In the video mode, except high frame per second requires and except high power consumption, the solution given by US2008/0030592 also requires very many process resources (this is because whole two video cameras are all in full operational state).
US2010/0277619 teaches a kind of video camera with two lens/sensor combinations, and described two lens have different focal lengths, thus makes the image from one of them combination have the approximate FOV doubly large from the 2-3 of another image combined.User along with video camera asks given zoom quantity, provides the image through zoom from the lens/sensor combinations with the next FOV being greater than asked FOV.Therefore, if the FOV asked is less than less FOV combination, then produces the image through zoom from the image of being caught by this combination, and use cutting and interpolation where necessary.Similarly, if the FOV asked is greater than less FOV combination, then produces the image through zoom from the image of being caught by another combination, and use cutting and interpolation where necessary.When moving to focal length video camera in the video mode, the solution given by US2010/0277619 causes parallax pseudomorphism.
In US2008/0030592 and US2010/0277619 all the two, the system of different focal causes utilizing cmos sensor to expose focal length and wide-angle coupling FOV in the different time.This reduces eral image quality.Different optics F numbers (" F# ") causes image intensity difference.Such double-sensor system is utilized to carry out the wide support of need of work biobelt, namely from transducer to the haywire of follow-up nextport hardware component NextPort.US2008/0030592 and US2010/0277619 does not solve registration error.US2008/000592 and US2010/0277619 does not mention partial fusion, namely merge in rest mode wide-angle and focal length image all the two be less than all pixels.
US2011/0064327 discloses multiple aperture imaging system and the method for fusing image data, which provides the first and second sets of image data of the first and second scenes corresponding respectively to imaging.Described scene is overlapping in overlap section at least in part, thus is defined as the first general collection of the overlapping image data of a part for the first sets of image data, and the second general collection of overlapping image data as a part for the second sets of image data.Second general collection of overlapping image data is expressed as multiple image data video camera, thus makes each sub-video camera be at least one characteristic based on the second general collection, and described overlap section crossed over by each sub-video camera.By being still less than the first general collection of all image data video cameras amendment overlapping image data based at least selected one of them, produced the fusion set of view data by image processor.System and method disclosed in this application only tackles the rest image of fusion.
Known prior art list of references does not all provide slim (such as assembling in a cellular telephone) Based on Dual-Aperture zoom digital camera with universal focus lens, described video camera is configured to operate and also can operates in the video mode to provide static and video image in rest mode, wherein video camera configuration uses partially or completely to merge in rest mode provides fused images, and does not use any fusion to provide continuous print level and smooth zoom in the video mode.
Therefore, required and favourable having being avoids the slim digital camera suffering problem and the shortcoming (foregoing has outlined wherein some) usually run into, and it has optical zoom and can operate and also can operate in rest mode in the video mode.
Summary of the invention
Embodiment disclosed herein teaches the use of Based on Dual-Aperture (it is also referred to as double lens or two sensors) optical zoom digital camera.Described video camera comprises two sub-video cameras, i.e. the sub-video camera of wide-angle and the sub-video camera of focal length, and each sub-video camera comprises universal focus lens, imageing sensor and image-signal processor (ISP).The sub-video camera of focal length is the more sub-video camera of high zoom, and the sub-video camera of wide-angle is the sub-video camera of lower zoom.In certain embodiments, described lens are the slim lens with the shorter optical path being less than about 9mm.In certain embodiments, thickness/effective focal length (EFL) ratio of focal length lens is less than about 1.Described imageing sensor can comprise two 2D pixelation transducers separated or be divided into the single pixelation transducer at least two regions.Under described digital camera also may operate in video mode under both having may operate in still-mode.In rest mode, realize zoom by merging W and T image when " having fusion " (wholly or in part), the fused images obtained always comprises from W and T image all the two information.Fusion can not used to realize partial fusion by focal length image is not focused image-region wherein.So just advantageously reduce calculation requirement (such as time).
In the video mode, by carrying out switching to shorten requirement computing time between W and T image, realizing optical zoom when " not merging ", thus allowing high video rate.Discontinuous in order to avoid in video mode, described switching comprises the additional processing block of application, the flexible and skew comprising image.
In order to reach optical zoom ability, being caught the different magnification image of (crawl) same scene by each photography loom video camera, thus causing the FOV between two sub-video cameras overlapping.In rest mode, application process on described two width images, to merge and to export a width fused images.According to the request of user's zoom factor, described fused images is processed.As the part merging code, the image that a width or whole two width capture can apply up-sampling wherein, to be stretched to the image captured by the sub-video camera of focal length or to stretch to yardstick defined by the user.Can only merge or up-sampling the some of them pixel application of transducer.If output resolution ratio is less than sensor resolution, then also down-sampling can be implemented.
Video camera disclosed herein and the method be associated solve and correct for many problems and the shortcoming of known Based on Dual-Aperture optical zoom digital camera.Which provide a kind of overall zoom solution relating to all aspects: optics, algorithm process and system hardware (HW).Make differentiation between the video of the solution proposed in handling process and still-mode, and specify optical requirement and hardware requirement.In addition, described solution provides a kind of optical design of novelty, thus utilizes specific lens curvature exponent number to achieve low TTL/EFL ratio.
Due to larger focal length, the object being in front, focal plane or rear seems very fuzzy, and achieves good prospect to background contrasts.But utilize the compact video camera (such as cell phone video camera) with relatively short focal length and smaller aperture size to be difficult to produce so fuzzy.In certain embodiments, by utilizing the more long-focus of focal length lens, Based on Dual-Aperture zoom system, pancreatic system disclosed herein can be used to catch shallow DOF photo (shallow compared with the DOF of independent wide-angle camera).By merging the data of the image utilizing wide-angle lens to catch simultaneously, the DOF effect of the reduction provided by the focal length focal length more grown can be strengthened further in final image.Depend on the distance of object, along with focal length lens focus is in the main body of photo, wide-angle lens can be focused onto the distance nearer than described main body, thus makes the object being in main body rear seem very fuzzy.Once capture described two width images, just from the information of the blurred background out of focus in wide angle picture and original focal length image background information fusion, thus provide fuzzyyer background and even more shallow DOF.
In one embodiment, provide a kind of zoom digital camera, it comprises: wide-angle image part, it comprises fixed focal length wide-angle lens, wide angle sensor and the wide angle picture signal processor (ISP) with wide-angle FOV, and described wide-angle image part is suitable for the wide angle picture data providing object or scene; Focal length imaging moiety, it comprises fixed focal length focal length lens, focal length transducer and the focal length ISP with the focal length FOV narrower than wide-angle FOV, and described focal length imaging moiety is suitable for the focal length view data providing object or scene; and be suitable for the Camera Control Unit being coupled to wide-angle and focal length imaging moiety, described Camera Control Unit is configured to combine in rest mode at least some of them wide-angle and focal length view data to provide the fusion output image of described object from certain view (POV) or scene, and the continuous vari-focus video mode output image of described object or scene is provided when not having fusion, be suitable for the Camera Control Unit being coupled to wide-angle and focal length imaging moiety, described Camera Control Unit is configured to combine in rest mode at least some of them wide-angle and focal length view data to provide the fusion output image of described object from certain view or scene, and the continuous vari-focus video mode output image of described object or scene is provided when not having fusion, each width output image has corresponding output resolution ratio, video output image is provided with level and smooth transition when wherein carrying out switching (or vice versa) between lower zoom factor (ZF) numerical value and higher ZF numerical value, output resolution ratio wherein under lower ZF numerical value is determined by wide angle sensor, and the output resolution ratio wherein under higher ZF numerical value is determined by focal length transducer.
In one embodiment, in order to carry out switching (or vice versa) between lower ZF numerical value and higher ZF numerical value use the secondary information from wide-angle camera under providing the Camera Control Unit of video output image to configure to be included in high ZF with level and smooth transition time and under low ZF, use the configuration of the secondary information from focal length video camera.Here used " secondary information " refers to white balance gains, time for exposure, analog gain and color correction matrix.
At Based on Dual-Aperture video camera as in plane, as each sub-video camera (with the imageing sensor of correspondence) is seen, generation offsets and has different perspectives (shape) by given object.This is referred to as viewpoint (POV).System output image can have shape and the position of arbitrary width camera image, or its shape combined or position.If output image remains wide angle picture shape, then it has wide-angle perspective POV.If it remains wide-angle camera position, then it has wide-angle position POV.This point is suitable for equally for focal length picture position and perspective.Perspective POV used in this manual can be that the perspective POV of wide-angle or the sub-video camera of focal length, position POV then can offset continuously between wide-angle and the sub-video camera of focal length.In fused images, likely focal length image pixel is registrated to the matched pixel set in wide angle picture pixel, in this case, output image will retain wide-angle POV (" wide-angle fusion ").Or, likely wide angle picture pixel matching to the matched pixel set in focal length image pixel, in this case, output image will retain focal length POV (" focal length fusion ").Also likely a width camera image in office implements described registration after being offset, and in this case, output image will retain corresponding wide-angle or focal length perspective POV.
In one embodiment, provide a kind of method for utilizing digital camera to obtain the zoom image of object or scene under static and whole two kinds of patterns of video, said method comprising the steps of: wide-angle image part is provided in digital camera, it comprises the wide-angle lens with wide-angle FOV, wide angle sensor and wide angle picture signal processor (ISP), focal length imaging moiety, it comprises the focal length lens with the focal length FOV narrower than wide-angle FOV, focal length transducer and focal length ISP, and be suitable for the Camera Control Unit being coupled to wide-angle and focal length imaging moiety, and Camera Control Unit is configured, thus combine at least some of them wide-angle and focal length view data in rest mode to provide the fusion output image of described object from certain view or scene, and the continuous vari-focus video mode output image of described object or scene is provided when not having fusion, each width output image has corresponding output resolution ratio, video mode output image is provided with level and smooth transition when wherein carrying out switching (or vice versa) between lower ZF numerical value and higher ZF numerical value, and the output resolution ratio wherein under lower ZF numerical value is determined by wide angle sensor, output resolution ratio under higher ZF numerical value is then determined by focal length transducer.
Accompanying drawing explanation
Below with reference to the accompanying drawing listed after this section to describe the limiting examples of embodiment disclosed herein.Accompanying drawing and describe meant for illustration and clarification embodiment disclosed herein, and should not be regarded as restricting by any way.
Figure 1A schematically shows the block diagram of Based on Dual-Aperture optical focus switchable imaging system disclosed herein;
Figure 1B is the schematic mechanical figure of the Based on Dual-Aperture optical focus switchable imaging system of Figure 1A;
Fig. 2 shows an example of the POV of wide angle sensor, focal length transducer and correspondence thereof;
Fig. 3 schematically shows the embodiment of the relation of cmos sensor image-capture and time;
Fig. 4 schematically shows and allows to utilize dual sensor zoom system, pancreatic system to share the sensor time configuration of a sensor interface;
Fig. 5 shows an embodiment of the method for gathering zoom image in the acquisition mode disclosed herein;
Fig. 6 shows an embodiment of the method for gathering zoom image under video/preview mode disclosed herein;
Fig. 7 shows the curve chart of effective resolution zoom factor;
Fig. 8 shows an embodiment of the block of lense in slim video camera disclosed herein;
Fig. 9 shows another embodiment of the block of lense in slim video camera disclosed herein.
Embodiment
Figure 1A schematically shows the block diagram being numbered an embodiment of the Based on Dual-Aperture optical focus switchable imaging system (it is also referred to only as " digital camera " or " video camera ") of 100 disclosed herein.Video camera 100 comprises wide-angle image part (" sub-video camera "), and it comprises wide-angle lens block 102, wide angle picture transducer 104 and wide angle picture processor 106.Video camera 100 also comprises focal length imaging moiety (" sub-video camera "), and it comprises focal length block of lense 108, focal length imageing sensor 110 and focal length image processor 112.Described imageing sensor can separate physically, or can be a part for larger single image transducer.Wide angle sensor Pixel Dimensions can equal or be different from focal length sensor pixel size.Video camera 100 also comprises video camera fusion treatment core (it is also referred to as " controller ") 114, it comprises sensor control block 116, user's control module 118, video processing module 126 and catches processing module 128, and described modules is all operationally coupled to sensor control block 110.User's control module 118 comprises operator scheme function 120, section interested (ROI) function 122 and zoom factor (ZF) function 124.
Sensor control block 116 is connected to two sub-video cameras and is connected to user's control module 118, and it is used to select wherein which transducer to be exercisable according to zoom factor, and controls exposure mechanism and transducer reading.Model selection function 120 is used to selection and catches/video mode.ROI function 122 is used to select section interested.Here used " ROI " is the sub-segments of user-defined image, and it can be such as 4% or less of image area.ROI is the section that whole two sub-video cameras are all focused thereon.Zoom factor function 124 is used to select zoom factor.Video processing module 126 is connected to model selection function 120 and is used to Video processing.Static processing module 128 is connected to model selection function 120 and is used to high image quality still-mode image.Video processing module is applied when user wishes to take in the video mode.When user wishes shooting still frame, processing module is caught in application.
Figure 1B is the schematic mechanical figure of the Based on Dual-Aperture optical focus switchable imaging system of Figure 1A.Exemplary specification is as follows: wide-angle lens TTL=4.2mm and EFL=3.5mm; Focal length lens TTL=6mm and EFL=7mm; Wide-angle and focal length transducer are all 1/3 inch.The outside specification of wide-angle and focal length video camera is as follows: width (w) and length (l)=8.5mm and height (h)=6.8mm.Distance " d "=10mm between video camera center.
Here is detailed description and the example of the distinct methods using video camera 100.
For the design of the continuous and level and smooth zoom under video mode
In one embodiment, in order to realize the continuous and level and smooth optical zoom of high-quality and utilize the sub-video camera of fixed focal length to realize true optical zoom under video cameras pattern simultaneously, described system is designed according to following rule (equation 1-3):
Tan(FOV Wide)/Tan(FOV Tele)＝PL Wide/PL video(1)
Wherein, Tan refers to " tangent ", FOV wideand FOV telerefer to wide-angle and focal length lens field (in the number of degrees) respectively.Here used FOV is (namely the half of the angle of normal definitions) measured to corner from the central shaft of transducer.PL wideand PL videorefer to number in " line in " (namely in a line) number of wide angle sensor pixel and the line of output video format pixel respectively.PL wide/ PL videoratio is referred to as " over-sampling ratio ".For example, in order to obtain completely and the experience of continuous print optical zoom for 12Mp transducer (4000x3000 transducer specification) and required 1080p (1920x1080 specification) video format, FOV ratio should be 4000/1920=2.083.In addition, if wide-angle lens FOV is given FOV wide=37.5 °, then required focal length lens FOV is 20.2 °.According to the ratio set zoom switching point between the number of pixel in the line in line inner sensor pixel and video format and as given a definition:
Z switch＝PL Wide/PL video(2)
Greatest optical zoom is reached according to formula below:
Z max＝Tan(FOV Wide)/Tan(FOV Tele)*PL Tele/PL video(3)
For example: PL is supposed for configuration defined above tele=4000 and PL video=1920, then Z max=4.35.
In one embodiment, sensor control block has and depends on wide-angle and focal length FOV and the setting depending on transducer over-sampling ratio, and described setting is used in the configuration of each transducer.For example, use 4000x3000 transducer time and export 1920x1080 image time, over-sampling ratio is 4000/1920=2.0833.
In one embodiment, wide-angle and focal length FOV and over-sampling ratio meet the following conditions 0.8*PL wide/ PL video<Tan (FOV wide)/Tan (FOV tele) <1.2PL wide/ PL video(4)
Still-mode operation/function
Under stillcamera pattern, from the image that the information fusion obtained by whole two sub-video cameras is obtained under all level of zoom, see Fig. 2, illustrated therein is the FOV of wide angle sensor 202 and focal length transducer 204 and correspondence thereof.As shown in the figure, exemplarily, focal length transducer FOV is the half of wide angle sensor FOV.Stillcamera mode treatment comprises two stages: (1) setting hardware setting and configuration, and wherein first object controls transducer, thus make to scan the coupling FOV in whole two width images (focal length and wide-angle) at one time.Second object controls relative exposure according to lens property.3rd object minimizes from bandwidth needed for whole two transducers for ISP; And (2) merge wide-angle and focal length image to realize optical zoom, improve SNR and provide the image procossing compared with wide dynamic range.
Fig. 3 shows the image line number and the relation of time that correspond to the image section of being caught by cmos sensor.Fused images is obtained by line (OK) scanning to every piece image.In order to prevent the coupling FOV in whole two transducers of different time scanning, while the identical frame per second of maintenance, on whole two imageing sensors, apply customized configuration by Camera Control Unit.Difference in FOV between transducer determines to correspond to the relation between the Rolling shutter time of each transducer and vertical blanking time.In described customized configuration, scanning is synchronous, thus makes the identical point of the object simultaneously obtained in each view.
Special with reference to Fig. 3 and according to an embodiment of method disclosed herein, the configuration in order to synchronous scanning comprises: by focal length sensor vertical blanking time VB telebe set to and equal wide angle sensor vertical blanking time VB wideadd wide angle sensor Rolling shutter time RST widehalf; By focal length and wide angle sensor time for exposure ET teleand ET widebe set to equal or different; By focal length transducer Rolling shutter time RST telebe set to 0.5*RST wide; And the frame per second of two transducers is set to equal.This code causes the identical image pixel in focal length and wide angle sensor image to be exposed at one time.
In another embodiment, Camera Control Unit is synchronous by wide-angle and focal length transducer, thus the Rolling shutter of whole two transducers is started at one time.
The time for exposure being applied to two transducers can be different, such as to utilize the different F# that corresponds to focal length and wide angle system and different pixels size to reach identical image intensity.In this case, the relative exposure time can be configured according to formula below:
ET Tele＝ET Wide·(F# Tele/F# Wide) 2·(Pixelsize Wide/Pixelsize Tele) 2(5)
Other time for exposure ratios can be applied to realize the SNR of wider dynamic range and improvement.The image that the two width images that fusion has varying strength will obtain compared with wide dynamic range.
In further detail with reference to Fig. 3, in the first phase, after user have selected required zoom factor ZF, sensor control block configures each transducer as follows:
1) cutting index wide angle sensor:
Y Widestart＝1/2·PC Wide(1-1/ZF)
Y Wideend＝1/2·PC Wide(1+1/ZF)
Wherein, PC is the number of pixels in row, and Y is line number
2) cutting index focal length transducer:
If ZF>Tan is (FOV wide)/Tan (FOV tele), then
Y Telestart＝1/2·PC Tele(1-(1/ZF)·Tan(FOV Tele)/Tan(FOV Wide))
Y Teleend＝1/2·PC Tele(1+(1/ZF)·Tan(FOV Tele)/Tan(FOV Wide))
If ZF<Tan is (FOV wide)/Tan (FOV tele), then
Y Telestart＝0
Y Teleend＝PC Tele
To the exposure initial time of focal length transducer be caused to have following delay (relative to wide angle sensor initial time in line number) like this:
(1-ZF/((Tan(FOV Wide)/Tan(FOV Tele)))·1/(2·FPS)(6)
Wherein, FPS is the number of pictures per second configuration of transducer.If ZF>Tan is (FOV wide)/Tan (FOV tele), then can not introduce delay between focal length and wide-angle exposure starting point.Such as wherein Tan (FOV wide)/Tan (FOV tele)=2 and the situation of ZF=1,1/4 (1/FPS) be exposed in wide angle picture first pixel after second focal length image first pixel be exposed.
After according to required zoom factor application cutting, should sensors configured Rolling shutter time and vertical blanking, to meet following equation to keep identical frame per second:
VB Wide+RST Wide＝VB Tele+RST Tele(7)
Fig. 3 is exemplified with equation (7).A kind of mode meeting equation (7) increases RST wide.Control RST widecan be undertaken by the horizontal blanking (HB) changing wide angle sensor.Like this by the delay between causing from the data of every a line of wide angle sensor.
As a rule, utilize double-sensor system to carry out need of work and bandwidth is multiplied by subsequent block, such as ISP.For example, utilize 12Mp to work under 30fps, every pixel 10 bit then requires to work under 3.6Gbit/ second.In this embodiment, support that this bandwidth needs 4 passages of the follow-up ISP from each transducer to the correspondence processing chain.Therefore, utilize two transducers to carry out the double bandwidth of need of work (7.2Gbit/ second) and be connected to 8 passages of corresponding subsequent block.By being configured two transducers and synchronously can reducing bandwidth.Therefore, the number of passage can be the half (3.6Gbit/ second) of conventional arrangement.
Fig. 4 schematically shows and allows to utilize dual sensor zoom system, pancreatic system to share the sensor time configuration of a sensor interface, and it meets the condition in the description of Fig. 3 above simultaneously.For simplicity, focal length sensor image compared with wide angle sensor image exaggerated 2 times is supposed, wide angle sensor horizontal blanking time HB widebe set to the twice of wide angle sensor line readout time.This just causes exporting the delay between wide-angle line.Accurately mate this time of delay and export time needed for two lines from focal length transducer.After exporting two lines from focal length transducer, focal length sensor levels blanking time HB telebe set to wide-angle line readout time, therefore while wide angle sensor exports a line from this transducer, do not have data to export from focal length transducer.For this example, the every Article 3 line in focal length transducer is delayed by an additional HB tele.In this time of delay, export a line from wide angle sensor from described double-sensor system.After transducer configuration phase, data are sent in processing section concurrently or by use is multiplexed.
Fig. 5 shows an embodiment of the method for gathering zoom image in rest mode disclosed herein.In ISP step 502, by the transfer of data of each transducer to corresponding ISP assembly, it implements various process known in the art to described data, such as denoising, demosaicing, sharpening, flexible etc.After process in step 502, catch process core 128 in implement all subsequent actions: rectification step 504 in, wide-angle and focal length image are all aligned on core line (epipolarline); In step of registration 506, implement the mapping between wide-angle and focal length alignment image, thus produce registration mapping graph; In resampling steps 508, according to registration mapping graph, resampling is carried out to focal length image, thus obtain the focal length image through resampling; In deciding step 510, the described focal length image through resampling and wide angle picture are processed to detect the mistake in registration, and provide decision to export.More particularly, in step 510, compare through the focal length view data of resampling and wide angle picture data, compare and if described and significant difference detected, then show mistake.In this case, choice for use wide-angle pixel number in the output image.Subsequently in fusion steps 512, described decision is exported, is fused in single zoom image through the focal length image of resampling and wide angle picture.
In order to reduce processing time and ability, can by non-focal zone not fused images walk around step 506,508,510 and 512.In this case, institute noted before should only be used on focal zone in steps.Because focal length optical system will introduce the depth of field more shallow than wide-angle optics, therefore out-focus region will lock into lower contrast in focal length system.
focal length under stillcamera pattern furthers and focal length zooms out
We are as given a definition: TFOV=tan (video camera FOV/2)." low ZF " refers to all ZF meeting ZF< wide-angle TFOV/ focal length TFOV." high ZF " refers to all ZF meeting ZF> wide-angle TFOV/ focal length TFOV." ZFT " refers to the ZF meeting ZF=wide-angle TFOV/ focal length TFOV.In one embodiment, the focal length under following enforcement still-mode furthers and focal length zooms out:
focal length furthers: upwards until a little more than under the low ZF of ZFT, the wide-angle that output image is through digital zoom merges and exports.For upper conversion (up-transfer) ZF, by global registration (GR), focal length image is offset and corrected to realize seamlessly transitting.Subsequently, described output is converted to focal length fusion output.For the ZF of higher (higher than upper conversion), the focal length that described output is through digital zoom merges output.
focal length zooms out: downwards until a little less than under the high ZF of ZFT, the focal length that output image is through digital zoom merges output.For lower conversion (down-transfer) ZF, by GR wide angle picture offset and correct to realize seamlessly transitting.Subsequently, described output is converted to wide-angle fusion output.For the ZF of lower (lower than lower conversion), described output is substantially through digital zoom but the lower conversion ZF with wide-angle offset correction less gradually exports, until for ZF=1, described output is the wide-angle camera output do not changed.
In another embodiment, the focal length under following enforcement still-mode furthers and focal length zooms out:
focal length furthers: upwards until a little more than under the low ZF of ZFT, the wide-angle that output image is through digital zoom merges and exports.For upper conversion ZF and more than, output image be focal length merge export.
focal length zooms out: downwards until a little less than under the high ZF of ZFT, the focal length that output image is through digital zoom merges output.For lower conversion ZF and following, output image is that wide-angle merges and exports.
Video mode operation/function
seamlessly transit
When Based on Dual-Aperture video camera switches video camera output between sub-video camera or viewpoint, user will see " jump " (discontinuous) image modification usually.But the change corresponding to the zoom factor of identical video camera and POV is then regarded as continuously changing." seamlessly transit " is minimize the transition between the video camera of skip effect or POV.This can comprise the position of the output image before and after matching transition, yardstick, brightness and color.But the whole picture position coupling between sub-video camera exports is impossible in many cases, this is because parallax makes position offset depend on object distance.Therefore, disclosedly here to seamlessly transit, only in ROI section, realize location matches, yardstick, brightness and color are then mated for whole output image region.
focal length under video mode furthers and focal length zooms out
In the video mode, transducer over-sampling is used to realize continuous and level and smooth zoom experience.From a sub-video camera to during another intersection, application process is with the change in removal of images.Wide angle sensor is only utilized to implement from 1 to Z switchzoom.From Z switchthen implement mainly through focal length transducer backward.In order to prevent " jump " (roughening in image), utilizing and comparing Z switchany zoom factor (Z high switch+ Δ Zoom) carry out being switched to focal length image.Δ Zoom determines according to the attribute of system, and is different (Δ Zoom for wherein applying situation that focal length furthers and wherein applying the situation that focal length zooms out in≠ Δ Zoom out).This is done to prevent residual jump pseudomorphism visible under specific zoom factor.The switching corresponded between the zoom increased and the transducer corresponding to the zoom reduced carries out in different zoom factor.
The operation of zoom video mode comprises two stages: (1) transducer controls and configuration, and (2) image procossing.From 1 to Z switchscope in, only have wide angle sensor to be exercisable, therefore can only to this transducer supply electric power.Similar condition is also set up for wide-angle AF mechanism.From Z switch+ Δ Zoom to Z max, only have focal length transducer to be exercisable, therefore only to this transducer supply electric power.Similarly, for focal length AF mechanism, focal length transducer is only had to be exercisable, and only to this transducer supply electric power.Another kind of option is focal length transducer is exercisable, and wide angle sensor operates under low frame per second.From Z switchto Z switch+ Δ Zoom, whole two transducers are all exercisable.
focal length furthers: upwards until a little more than under the low ZF of ZFT, the wide-angle camera do not changed that output image is through digital zoom exports.For upper conversion (up-transfer) ZF, the sub-video camera of focal length that described output is through conversion exports, and wherein implements described conversion to realize seamlessly transitting by global registration (GR) algorithm.For the ZF of higher (higher than upper conversion), the conversion ZF that described output is through digital zoom exports.
focal length zooms out: downwards until a little less than under the high ZF of ZFT, output image is through the focal length video camera after the conversion of digital zoom and exports.For lower conversion (down-transfer) ZF, the wide-angle camera that described output is through skew exports, and wherein implements wide-angle offset correction to realize seamlessly transitting by GR algorithm, does not that is jump in ROI section.For the ZF of lower (lower than lower conversion), described output is substantially through digital zoom but the lower conversion ZF with wide-angle offset correction less gradually exports, until for ZF=1, described output is the wide-angle camera output do not changed.
Fig. 6 shows an embodiment for gathering the method for zoom image under video/preview mode for 3 different zoom factor (ZF) scopes disclosed herein: (a) ZF scope=1:Z switch; (b) ZF scope=Z switch: Z switch+ Δ Zoom in; And (c) zoom factor scope=Z switch+ Δ Zoom in: Z max.It describes the curve chart (Fig. 7) of the relation being reference effective resolution and zoom numerical value.In step 602, sensor control block 116 select (instruction) transducer (wide-angle, focal length or all the two) be exercisable.Specifically, if ZF is scope=1:Z switch, then module 116 indicates wide angle sensor to be exercisable, and focal length transducer is not exercisable.If ZF scope is Z switch: Z switch+ Δ Zoom in, then module 116 indicates whole two transducers to be all exercisable, and generates zoom image from wide angle sensor.If ZF scope is Z switch+ Δ Zoom in: Z max, then module 116 indicates wide angle sensor to be not exercisable and focal length transducer is exercisable.After transducer is in step 602 selected, all subsequent actions are all implemented in Video processing core 126.Optionally, in step 604, if two width images are provided by two transducers, then colour balance is calculated.In addition optionally, in step 606, (depending on zoom factor) applies the colour balance calculated in piece image wherein.In addition optionally, in step 608, between wide-angle and focal length image, registration is implemented, so that output transform coefficient.Described conversion coefficient can be used to set AF position in step 610.In step 612, the output of any one step in the middle of the applying step 602-608 that piece image (depends on zoom factor) is wherein for picture signal process, and described picture signal process can comprise denoising, demosaicing, sharpening, flexible etc.In step 614, according to described conversion coefficient, the ZF (obtaining from zoom function 124) asked and output video resolution (such as 1080p), resampling is carried out to treated image.In order to avoid performing transition point under identical ZF, when carrying out focal length and furthering and when carrying out focal length and zooming out, Δ Zoom can change.Delayed by what cause in transducer switching point like this.
More particularly, for ZF scope 1:Z switch, for ZF<Z switch, wide angle picture data are transferred to ISP and in step 612 by resampling in step 614.For ZF scope=Z switch: Z switch+ Δ Zoom in, whole two transducers are all exercisable, and generate zoom image from wide angle sensor.According to given ROI, colour balance is calculated for whole two width images.In addition, for given ROI, between wide-angle and focal length image, registration is implemented, so that output transform coefficient.Described conversion coefficient is used to set AF position.Described conversion coefficient comprises the translation between the match point in two width images.This translation can be measured by pixel count.Different translations is by the movement of the different pixels number in the match point that causes in image.This moves and can be converted into the degree of depth, and the described degree of depth can be converted into AF position.So just allow to set AF position by only analyzing two width images (wide-angle and focal length).Consequently focus on fast.
All the two is all used in ISP step for colour balance ratio and conversion coefficient.Wide angle picture is processed to provide treated image concurrently, carry out resampling subsequently.For ZF scope=Z switch+ Δ Zoom in: Z maxand for zoom factor >Z switch+ Δ Zoom in, previous calculated colour balance is used on focal length image now.Focal length view data is transferred to ISP and in step 612 by resampling in step 614.Intersect pseudomorphism to eliminate and be smoothly transitted into focal length image to realize, according to described conversion coefficient, the ZF (obtaining from zoom function 124) asked and output video resolution (such as 1080p), resampling being carried out to treated focal length image.
Fig. 7 shows and to further situation and correspond to focal length and zoom out the effective resolution of the function as zoom factor of situation corresponding to focal length, wherein sets Δ Zoom when focal length furthers up, set Δ Zoom when focal length zooms out down.Δ Zoom upbe set as being different from Δ Zoom downtransition when using focal length to further and when using focal length to zoom out under different zoom factor between (" delayed ") enforcement transducer will be caused.This hysteresis under video mode causes level and smooth continuous print zoom to be experienced.
Optical design
Consider additional optical design Consideration in addition, to allow to utilize less optics overall length (TTL) to reach optical zoom resolution.These Considerations relate to focal length lens.In one embodiment, video camera is " slim " (also see Figure 1B), and this is that its light path is less than 9mm, and its thickness/focal length (FP) ratio is less than about 0.85.Exemplarily, as shown in Figure 8, slim video camera like this has the block of lense comprising (optical axis along counting from object) five lens: first lens element 802 with positive light coke, there are two lens 804 and 806 of negative power, there are the 4th lens 808 of positive light coke, and there are the 5th lens 810 of negative power.In the embodiment in fig. 8, EFL is 7mm, TTL is 4.7mm, f=6.12, and FOV=20 °.Therefore, focal length lens TTL/EFL ratio is less than 0.9.In other embodiments, focal length lens TTL/EFL ratio can be less than 1.
In another embodiment of block of lense in slim video camera in fig .9, the block of lense that video camera has comprises (optical axis along counting from object): first lens element 902 with positive light coke, there is the second lens element 904 of negative power, there is the 3rd lens element 906 of positive light coke, there is the 4th lens element 908 of negative power, and there is the 5th field lens element 910 of plus or minus focal power.In this embodiment, f=7.14, F#=3.5, TTL=5.8mm, and FOV=22.7 °.
Generally speaking, Based on Dual-Aperture optical zoom digital camera disclosed herein and the method be associated decrease the quantity of process resource, reduce frame per second requirement, decrease power consumption, eliminate parallax pseudomorphism, and when wide-angle changes to focal length, provide continuous print to focus on (or providing out of focus) in the video mode.Described video camera and method substantially reduce disparity range (disparityrange), and avoid misregistration in the acquisition mode.Described video camera and method reduce image intensity difference, and allow to utilize single-sensor bandwidth to carry out work, instead of two transducer bandwidth in known video camera.
All patent applications mentioned in this manual are all merged into for referencial use in this specification in full, and its degree is equal to clearly and shows that each independent patent application is all incorporated in this with situation for referencial use individually.In addition, the citation of any list of references or mark are not to be construed as admit that such list of references can as the prior art of present disclosure in this application.
Although describe present disclosure by some embodiment and the method that is associated generally, those skilled in the art will recognize that the change for described embodiment and method and displacement.Should be understood that, present disclosure not by the restriction of specific embodiment as described herein, and is only limited by the scope of appended claims.
Claims (amendment according to treaty the 19th article)
1. a zoom digital camera, it comprises:
A) wide-angle image part, it comprises fixed focal length wide-angle lens, wide angle sensor and the wide angle picture signal processor (ISP) with wide-angular field (FOV), and described wide-angle image part is suitable for the wide angle picture data providing object or scene;
B) focal length imaging moiety, it comprises fixed focal length focal length lens, focal length transducer and the focal length ISP with the focal length FOV narrower than wide-angle FOV, and described focal length imaging moiety is suitable for the focal length view data providing object or scene; And
C) Camera Control Unit being coupled to wide-angle and focal length imaging moiety is suitable for, described Camera Control Unit is configured to combine in rest mode at least some of them wide-angle and focal length view data to provide the fusion output image of described object from certain view or scene, and provide the continuous vari-focus video mode output image of described object or scene when not having fusion, each width output image has corresponding output resolution ratio;
Wherein, carry out switching between lower zoom factor (ZF) numerical value and higher ZF numerical value or vice versa time provide video output image with level and smooth transition, output resolution ratio wherein under lower ZF numerical value is determined by wide angle sensor, and the output resolution ratio wherein under higher ZF numerical value is determined by focal length transducer.
2. the video camera of claim 1, wherein, described controller comprises the user's control module for receiving user's input, and for gathering the sensor control block of wide-angle and focal length view data based on each transducer of user's input configuration.
3. the video camera of claim 2, wherein, described user's input comprises zoom factor, camera model and section interested (ROI).
4. the video camera of claim 2, wherein, described sensor control block has and depends on wide-angle and focal length visual field and the setting depending on transducer over-sampling ratio, and described setting is used in the configuration of each transducer.
5. the video camera of claim 4, wherein, described wide-angle and focal length FOV and transducer over-sampling ratio meet the following conditions: 0.8*PL wide/ PL video<Tan (FOV wide)/Tan (FOV tele) <1.2PL wide/ PL video, wherein PL widebe wide angle sensor pixel line in number, and wherein PL videobe output video format pixel line in number.
6. the video camera of claim 1, wherein, described focal length lens comprise the ratio of total length (the TTL)/effective focal length (EFL) being less than 1.
7. the video camera of claim 5, wherein, each lens comprises five lens elements.
8. the video camera of claim 6, wherein, described five elements according to the order from subject side have n-negative-Negative-Positive-Negative focal power.
9. the video camera of claim 6, wherein, described five elements have Negative-Positive-Negative-negative, positive or negative power according to the order from subject side.
10. the video camera of claim 1, wherein, in order to carry out switching between lower ZF numerical value and higher ZF numerical value or vice versa time provide the Camera Control Unit of video output image to configure with level and smooth transition to comprise the configuration used from wide angle sensor or the information from focal length transducer.
The video camera of 11. claims 1, wherein, in order to carry out switching between lower ZF numerical value and higher ZF numerical value or vice versa time provide the Camera Control Unit of video output image to configure to be included in high ZF with level and smooth transition under use the secondary information from wide-angle camera and under low ZF, use the configuration of the secondary information from focal length video camera.
12. 1 kinds, for the method utilizing digital camera to obtain the zoom image of object or scene under static and whole two kinds of patterns of video, said method comprising the steps of:
A) in digital camera, wide-angle image part is provided, it comprises wide-angle lens, wide angle sensor and the wide angle picture signal processor (ISP) with wide-angular field (FOV), focal length imaging moiety, it comprises focal length lens, focal length transducer and the focal length ISP with the focal length FOV narrower than wide-angle FOV, and is suitable for the Camera Control Unit being coupled to wide-angle and focal length imaging moiety; And
B) Camera Control Unit is configured, thus combine at least some of them wide-angle and focal length view data in rest mode to provide the fusion output image of described object from certain view or scene, and the continuous vari-focus video mode output image of described object or scene is provided when not having fusion, each width output image has corresponding output resolution ratio, wherein carry out switching between lower zoom factor (ZF) numerical value and higher ZF numerical value or vice versa time provide video mode output image with level and smooth transition, and the output resolution ratio wherein under lower ZF numerical value is determined by wide angle sensor, output resolution ratio under higher ZF numerical value is then determined by focal length transducer.
The method of 13. claims 12, wherein, Camera Control Unit is configured when not have to provide the step of the continuous vari-focus video mode output image of described object or scene to comprise when merging: utilization is depended on wide-angle and focal length FOV and depended on that the setting of transducer over-sampling ratio is to configure each transducer.
The method of 14. claims 13, wherein, described wide-angle and focal length FOV and over-sampling ratio meet the following conditions: 0.8*PL wide/ PL video<Tan (FOV wide)/Tan (FOV tele) <1.2PL wide/ PL video, wherein PL widebe wide angle sensor pixel line in number, and PL videobe output video format pixel line in number.
The method of 15. claims 12, wherein, configuration Camera Control Unit provides the step of the continuous vari-focus video mode output image of described object or scene to comprise when not having fusion: between wide-angle and focal length image, implement registration with output transform coefficient, and utilize described conversion coefficient to set automatic focus position.
The method of 16. claims 12, wherein, obtain when focal length furthers by carrying out switching under a ZF numerical value between lower ZF factor and higher ZF factor and seamlessly transit, and obtain when focal length zooms out seamlessly transit by carrying out switching under the 2nd ZF numerical value being different from a ZF numerical value between higher ZF factor and lower ZF factor.
The method of 17. claims 12, wherein, configure Camera Control Unit to combine at least some of them wide-angle and focal length view data in rest mode and comprise to provide the step merging output image: configuration Camera Control Unit only combines wide-angle and focal length view data in focal zone.
The method of 18. claims 12, wherein, each lens has different F numbers, and wherein configures Camera Control Unit and combine at least some of them wide-angle and focal length view data in rest mode and comprise to provide the step merging output image: configuration Camera Control Unit sets the time for exposure based on the ratio of described different F number.
The method of 19. claims 12, wherein, configuration Camera Control Unit combines at least some of them wide-angle and focal length view data in rest mode and comprises to provide the step merging output image: configuration Camera Control Unit utilizes different intensity settings two width images, to provide the image compared with wide dynamic range.
The method of 20. claims 12, wherein, configure Camera Control Unit to combine at least some of them wide-angle and focal length view data in rest mode and comprise to provide the step merging output image: configure described two transducers and utilize single-sensor bandwidth to obtain fused images.
The method of 21. claims 12, wherein, configuration Camera Control Unit combines at least some of them wide-angle and focal length view data in rest mode and comprises the configuration synchronous wide-angle of Camera Control Unit and focal length transducer to provide the step merging output image, thus the overlapping region in pressure object images is exposed at one time, wherein saidly synchronously to comprise:
I, by focal length sensor vertical blanking time VB telebe set to and equal wide angle sensor vertical blanking time VB wideadd wide angle sensor Rolling shutter time RST widehalf;
Ii, by the focal length of correspondence and wide angle sensor time for exposure ET teleand ET widebe set to equal;
Iii, by focal length transducer Rolling shutter time RST telebe set to RST wide/ 2; And
Iv, the frame per second of two transducers is set to equal.
The method of 22. claims 12, wherein, configuration Camera Control Unit combines at least some of them wide-angle and focal length view data in rest mode and comprises to provide the step merging output image: the configuration synchronous wide-angle of Camera Control Unit and focal length transducer, thus forces described two transducers to start exposure at one time.
23. 1 kinds of zoom digital cameras, it comprises:
A) wide-angle image part, it comprises fixed focal length wide-angle lens, wide angle sensor and the wide angle picture signal processor (ISP) with wide-angular field (FOV), and described wide-angle image part is suitable for the wide angle picture data providing object or scene;
B) focal length imaging moiety, it comprises fixed focal length focal length lens, focal length transducer and the focal length ISP with the focal length FOV narrower than wide-angle FOV, and described focal length imaging moiety is suitable for the focal length view data providing object or scene; And
C) Camera Control Unit being coupled to wide-angle and focal length imaging moiety is suitable for, the continuous vari-focus video output image of described object or scene is provided with level and smooth transition when described Camera Control Unit is configured to carry out between lower zoom factor (ZF) numerical value and higher ZF numerical value to switch or vice versa, each width output image has corresponding output resolution ratio, output resolution ratio wherein under lower ZF numerical value is determined by wide angle sensor, and the output resolution ratio wherein under higher ZF numerical value is determined by focal length transducer.
The video camera of 24. claims 23, wherein, described controller comprises the user's control module for receiving user's input, and for gathering the sensor control block of wide-angle and focal length view data based on each transducer of user's input configuration, wherein said user's input comprises zoom factor and camera model.
The video camera of 25. claims 23, wherein, in order to carry out switching between lower ZF numerical value and higher ZF numerical value or vice versa time provide the Camera Control Unit of video output image to configure with level and smooth transition to comprise the configuration used from wide angle sensor or the information from focal length transducer.
The video camera of 26. claims 23, wherein, in order to carry out switching between lower ZF numerical value and higher ZF numerical value or vice versa time provide the Camera Control Unit of video output image to configure to be included in high ZF with level and smooth transition under use the secondary information from wide-angle camera and under low ZF, use the configuration of the secondary information from focal length video camera.
The video camera of 27. claims 23, wherein, described controller is configured to:
E) between wide-angle and focal length image, registration is implemented, so that output transform coefficient; And
F) according to described conversion coefficient, resampling is carried out to focal length view data or wide angle picture data to eliminate intersection pseudomorphism, and thus provide the location matches for video output image.
The video camera of 28. claims 27, wherein, implements described location matches in section interested.
29. 1 kinds of methods providing digital imagery to export, it comprises the following steps:
A) use wide-angle image part to provide the wide angle picture data of object or scene, wherein said wide-angle image part comprises the wide-angle lens and wide angle sensor with wide-angular field (FOV);
B) use focal length imaging section to assign to provide the focal length view data of object or scene, wherein said focal length imaging moiety comprises the focal length lens and focal length transducer with the focal length FOV narrower than wide-angle FOV; And
C) carry out switching between lower zoom factor (ZF) numerical value and higher ZF numerical value or vice versa time to generate the continuous vari-focus video output image of described object or scene with level and smooth transition, each width output image has corresponding output resolution ratio, output resolution ratio wherein under lower ZF numerical value is determined by wide angle sensor, and the output resolution ratio wherein under higher ZF numerical value is determined by focal length transducer.
The method of 30. claims 29, it is further comprising the steps of:
D) between wide-angle and focal length image, registration is implemented, so that output transform coefficient; And
E) according to described conversion coefficient, resampling is carried out to focal length view data or wide angle picture data to eliminate intersection pseudomorphism, thus the location matches for video output image is provided.
The method of 31. claims 30, wherein, implements described location matches in section interested.

Claims (22)

1. a zoom digital camera, it comprises:
A) wide-angle image part, it comprises fixed focal length wide-angle lens, wide angle sensor and the wide angle picture signal processor (ISP) with wide-angular field (FOV), and described wide-angle image part is suitable for the wide angle picture data providing object or scene;
B) focal length imaging moiety, it comprises fixed focal length focal length lens, focal length transducer and the focal length ISP with the focal length FOV narrower than wide-angle FOV, and described focal length imaging moiety is suitable for the focal length view data providing object or scene; And
C) Camera Control Unit being coupled to wide-angle and focal length imaging moiety is suitable for, described Camera Control Unit is configured to combine in rest mode at least some of them wide-angle and focal length view data to provide the fusion output image of described object from certain view or scene, and provide the continuous vari-focus video mode output image of described object or scene when not having fusion, each width output image has corresponding output resolution ratio;
Wherein, carry out switching between lower zoom factor (ZF) numerical value and higher ZF numerical value or vice versa time provide video output image with level and smooth transition, output resolution ratio wherein under lower ZF numerical value is determined by wide angle sensor, and the output resolution ratio wherein under higher ZF numerical value is determined by focal length transducer.
2. the video camera of claim 1, wherein, described controller comprises the user's control module for receiving user's input, and for gathering the sensor control block of wide-angle and focal length view data based on each transducer of user's input configuration.
3. the video camera of claim 2, wherein, described user's input comprises zoom factor, camera model and section interested (ROI).
4. the video camera of claim 2, wherein, described sensor control block has and depends on wide-angle and focal length visual field and the setting depending on transducer over-sampling ratio, and described setting is used in the configuration of each transducer.
5. the video camera of claim 4, wherein, described wide-angle and focal length FOV and transducer over-sampling ratio meet the following conditions: 0.8*PL wide/ PL video<Tan (FOV wide)/Tan (FOV tele) <1.2PL wide/ PL video, wherein PL widebe wide angle sensor pixel line in number, and wherein PL videobe output video format pixel line in number.
6. the video camera of claim 1, wherein, described focal length lens comprise the ratio of total length (the TTL)/effective focal length (EFL) being less than 1.
7. the video camera of claim 5, wherein, each lens comprises five lens elements.
8. the video camera of claim 6, wherein, described five elements according to the order from subject side have n-negative-Negative-Positive-Negative focal power.
9. the video camera of claim 6, wherein, described five elements have Negative-Positive-Negative-negative, positive or negative power according to the order from subject side.
10. the video camera of claim 1, wherein, in order to carry out switching between lower ZF numerical value and higher ZF numerical value or vice versa time provide the Camera Control Unit of video output image to configure with level and smooth transition to comprise the configuration used from wide angle sensor or the information from focal length transducer.
The video camera of 11. claims 1, wherein, in order to carry out switching between lower ZF numerical value and higher ZF numerical value or vice versa time provide the Camera Control Unit of video output image to configure to be included in high ZF with level and smooth transition under use the secondary information from wide-angle camera and under low ZF, use the configuration of the secondary information from focal length video camera.
12. 1 kinds, for the method utilizing digital camera to obtain the zoom image of object or scene under static and whole two kinds of patterns of video, said method comprising the steps of:
A) in digital camera, wide-angle image part is provided, it comprises wide-angle lens, wide angle sensor and the wide angle picture signal processor (ISP) with wide-angular field (FOV), focal length imaging moiety, it comprises focal length lens, focal length transducer and the focal length ISP with the focal length FOV narrower than wide-angle FOV, and is suitable for the Camera Control Unit being coupled to wide-angle and focal length imaging moiety; And
B) Camera Control Unit is configured, thus combine at least some of them wide-angle and focal length view data in rest mode to provide the fusion output image of described object from certain view or scene, and the continuous vari-focus video mode output image of described object or scene is provided when not having fusion, each width output image has corresponding output resolution ratio, wherein carry out switching between lower zoom factor (ZF) numerical value and higher ZF numerical value or vice versa time provide video mode output image with level and smooth transition, and the output resolution ratio wherein under lower ZF numerical value is determined by wide angle sensor, output resolution ratio under higher ZF numerical value is then determined by focal length transducer.
The method of 13. claims 12, wherein, Camera Control Unit is configured when not have to provide the step of the continuous vari-focus video mode output image of described object or scene to comprise when merging: utilization is depended on wide-angle and focal length FOV and depended on that the setting of transducer over-sampling ratio is to configure each transducer.
The method of 14. claims 13, wherein, described wide-angle and focal length FOV and over-sampling ratio meet the following conditions: 0.8*PL wide/ PL video<Tan (FOV wide)/Tan (FOV tele) <1.2PL wide/ PL video, wherein PL widebe wide angle sensor pixel line in number, and PL videobe output video format pixel line in number.
The method of 15. claims 12, wherein, configuration Camera Control Unit provides the step of the continuous vari-focus video mode output image of described object or scene to comprise when not having fusion: between wide-angle and focal length image, implement registration with output transform coefficient, and utilize described conversion coefficient to set automatic focus position.
The method of 16. claims 12, wherein, obtain when focal length furthers by carrying out switching under a ZF numerical value between lower ZF factor and higher ZF factor and seamlessly transit, and obtain when focal length zooms out seamlessly transit by carrying out switching under the 2nd ZF numerical value being different from a ZF numerical value between higher ZF factor and lower ZF factor.
The method of 17. claims 12, wherein, configure Camera Control Unit to combine at least some of them wide-angle and focal length view data in rest mode and comprise to provide the step merging output image: configuration Camera Control Unit only combines wide-angle and focal length view data in focal zone.
The method of 18. claims 12, wherein, each lens has different F numbers, and wherein configures Camera Control Unit and combine at least some of them wide-angle and focal length view data in rest mode and comprise to provide the step merging output image: configuration Camera Control Unit sets the time for exposure based on the ratio of described different F number.
The method of 19. claims 12, wherein, configuration Camera Control Unit combines at least some of them wide-angle and focal length view data in rest mode and comprises to provide the step merging output image: configuration Camera Control Unit utilizes different intensity settings two width images, to provide the image compared with wide dynamic range.
The method of 20. claims 12, wherein, configure Camera Control Unit to combine at least some of them wide-angle and focal length view data in rest mode and comprise to provide the step merging output image: configure described two transducers and utilize single-sensor bandwidth to obtain fused images.
The method of 21. claims 12, wherein, configuration Camera Control Unit combines at least some of them wide-angle and focal length view data in rest mode and comprises the configuration synchronous wide-angle of Camera Control Unit and focal length transducer to provide the step merging output image, thus the overlapping region in pressure object images is exposed at one time, wherein saidly synchronously to comprise:
I, by focal length sensor vertical blanking time VB telebe set to and equal wide angle sensor vertical blanking time VB wideadd wide angle sensor Rolling shutter time RST widehalf;
Ii, by the focal length of correspondence and wide angle sensor time for exposure ET teleand ET widebe set to equal;
Iii, by focal length transducer Rolling shutter time RST telebe set to RST wide/ 2; And
Iv, the frame per second of two transducers is set to equal.
The method of 22. claims 12, wherein, configuration Camera Control Unit combines at least some of them wide-angle and focal length view data in rest mode and comprises to provide the step merging output image: the configuration synchronous wide-angle of Camera Control Unit and focal length transducer, thus forces described two transducers to start exposure at one time.
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